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The fragmentation processes considered in this work are self-similar Markov processes which are meant to describe the evolution of a mass that falls apart randomly as time passes. We investigate their pathwise asymptotic behavior as t foes to infinity. In the so-called homogeneous case, we first point at a law of large numbers and a central limit theorem for (a modified version of) the empirical distribution of the fragments at time t. These results are reminiscent of those of Asmussen and Kaplan [3] and Biggins [12] for branching random walks. Next, in the same vein as Biggins [10], we also investigate some natural martingales, which open the way to an almost sure large deviation principle by an application of the Gärtner-Ellis theorem. Finally, some asymptotic results in the general self-similar case are derived by time-change from the previous ones. Properties of size-biased picked fragments provide key tools for the study.
10123 Institute of Mathematics, [MATH.MATH-PR] Mathematics [math]/Probability [math.PR], 510 Mathematics, 2604 Applied Mathematics, fragmentation, Exchangeability for stochastic processes, central limit theorem, Continuous-time Markov processes on general state spaces, self-similar, large deviations, 2600 General Mathematics
10123 Institute of Mathematics, [MATH.MATH-PR] Mathematics [math]/Probability [math.PR], 510 Mathematics, 2604 Applied Mathematics, fragmentation, Exchangeability for stochastic processes, central limit theorem, Continuous-time Markov processes on general state spaces, self-similar, large deviations, 2600 General Mathematics
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